MAPLE Model: A Blended ARCS-PSIS Approach to Enhance Gen-Z Engagement in Core Engineering Courses
DOI:
https://doi.org/10.16920/jeet/2026/v39is2/26029Keywords:
ARCS Motivational Model; CADENCE Tool; Gen-Z; MAPLE; Peer-learning; VLSI.Abstract
Gen-Z students often struggle with concentration and engagement in traditional classroom settings, particularly in core engineering courses like Very Large-Scale Integration (VLSI) Design, which are both concept-heavy and abstract. These learners, being digital natives, prefer interactive, collaborative, and application-oriented learning environments. Traditional lecture methods often fail to sustain their attention or motivation. To overcome this challenge, this paper introduces the Motivation-Aligned Peer Learning Environment (MAPLE) Model, a blended pedagogical framework that combines the Attention, Relevance, Confidence, Satisfaction (ARCS) motivational model with Peer-Supported Independent Study (PSIS). The ARCS component enhances theoretical learning by capturing attention, building relevance, and fostering confidence and satisfaction through structured and interactive delivery methods. Meanwhile, the PSIS component empowers students to explore practical applications through peer collaboration, hands-on activities, and independent learning in lab environments. This paper presents the design and implementation of the MAPLE Model in a third-year VLSI Design course and evaluates its effectiveness through quantitative and qualitative analyses. The results demonstrated significant improvements in academic performance, peer collaboration, and overall course satisfaction. This study concludes that the MAPLE Model is a scalable and effective instructional strategy for improving engagement and outcomes in core engineering education for Gen-Z learners.
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